Free unix amiga emulator software for linux

VT6530 Terminal Emulator is a Java implementation of the proprietary terminal used with Tandem mainframes.
The Tandem VT6530 is a proprietary terminal used with their Non-Stop(TM) series of mainframes. These high-reliability machines are popular in the banking industry. If youve ever used an ATM to get cash, youve probably used a VT6530.
The terminal itself can operate in three different mode: conversation, block, and ANSI (VT100). Conversation mode is a simple scrolling text mode with the addition key buffering and text attributes. In block mode, text is displayed in a formated screen with special edit fields. ANSI mode is only used with OSS, Tandems UNIX wanabe operating layer.
Enhancements:
- Autotools support (./configure, make, make check, and make install).
- New telnet and ANSI terminal implementations.
- Linux, Cygwin, and HP NonStop (tandem OSS) builds are not quite running yet.

Jagacy 3270 Emulator is a feature-rich 3270 terminal emulator. It supports SSL, TN3270E, and over thirty languages. The project does not contain the screen-scraping library, and is a cost effective solution for a stand-alone Java 3270 terminal emulator.
The emulator can be configured to help create screen-scraping applications. Developers can also develop their own custom terminal emulators (with automated logon and logoff). Jagacy 3270 screen-scraping is faster, easier to use, and more intuitive than HLLAPI. It excels in creating applications reliably and quickly.
Main features:
- 100% pure Java.
- Feature rich 3270 terminal emulator.
- SSL support.
- Extended TN3270 (TN3270E) support.
- 17 different terminal types (including 132 columns).
- Internationalization support. Over 30 different languages supported.
- Configurable using properties, if desired. No changes necessary when host name or screens change.
- Easily create a custom 3270 terminal emulator.
- Small footprint (less than 150K). Runs efficiently within the Eclipse and NetBeans IDEs.
- Can display the 3270 session in a window while an application is running.
- Includes a full-featured 3270 terminal emulator tailored to developing and debugging applications.
Enhancements:
- Add features/limitations/changes here

The goal of RUMT is to check the memory of a computer over a long period of time and almost-real load conditions without having to interrupt the services.

RUMT exploits the possibility of some Unix kernels to selectivly disable some memory areas while still accessing them through the /dev/mem device. The principle of RUMT is to write pseudo-random data in these disabled memory areas, and later check them. This principle and the original code for the deterministic pseudo-random generator are from David Madore.

This distribution contains another variant on the same theme: URUMT allocates a large chunk of memory, locks it in memory using the mlock(2) system call, and scans /dev/mem to find where in physical memory the allocated area is. Then it continuously runs the same tests in that memory.

URUMT can not be used to test a particular area of memory: the kernel will give it whatever physical memory it feels like. But URUMT can be restarted now and then, hopefully getting different physical memory each time.

This is perfect if you suspect you have bad bits, but do not know at all where they are. Once you have sighted the bad bits, you can use a plain RUMT to test more extensively the neighborhood.

Unix::Mknod is a Perl extension for mknod, major, minor, and makedev.

SYNOPSIS

use Unix::Mknod qw(:all);
use File::stat;
use Fcntl qw(:mode);

$st=stat(/dev/null);
$major=major($st->rdev);
$minor=minor($st->rdev);

mknod(/tmp/special, S_IFCHR|0600, makedev($major,$minor+1));

This module allows access to the device routines major()/minor()/makedev() that may or may not be macros in .h files.

It also allows access to the mknod system call.

Amiga Research Operating System (AROS) is a portable and free desktop operating system aiming at being compatible with AmigaOS 3.1, while improving on it in many areas. The source code is available under an open source license, which allows anyone to freely improve upon it.

Goals

The goals of the AROS project is it to create an OS which:

1. Is as compatible as possible with AmigaOS 3.1.
2. Can be ported to different kinds of hardware architectures and processors, such as x86, PowerPC, Alpha, Sparc, HPPA and other.
3. Should be binary compatible on Amiga and source compatible on any other hardware.
4. Can run as a standalone version which boots directly from hard disk and as an emulation which opens a window on an existing OS to develop software and run Amiga and native applications at the same time.
5. Improves upon the functionality of AmigaOS.

To reach this goal, we use a number of techniques. First of all, we make heavy use of the Internet. You can participate in our project even if you can write only one single OS function. The most current version of the source is accessible 24 hours per day and patches can be merged into it at any time. A small database with open tasks makes sure work is not duplicated.

History

Some time back in the year 1993, the situation for the Amiga looked somewhat worse than usual and some Amiga fans got together and discussed what should be done to increase the acceptance of our beloved machine. Immediately the main reason for the missing success of the Amiga became clear: it was propagation, or rather the lack thereof. The Amiga should get a more widespread basis to make it more attractive for everyone to use and to develop for. So plans were made to reach this goal. One of the plans was to fix the bugs of the AmigaOS, another was to make it an modern operating system. The AOS project was born.

But exactly what was a bug? And how should the bugs be fixed? What are the features a so-called modern OS must have? And how should they be implemented into the AmigaOS?

Two years later, people were still arguing about this and not even one line of code had been written (or at least no one had ever seen that code). Discussions were still of the pattern where someone stated that "we must have ..." and someone answered "read the old mails" or "this is impossible to do, because ..." which was shortly followed by "youre wrong because ..." and so on.

In the winter of 1995, Aaron Digulla got fed up with this situation and posted an RFC (request for comments) to the AOS mailing list in which I asked what the minimal common ground might be. Several options were given and the conclusion was that almost everyone would like to see an open OS which is compatible to AmigaOS 3.1 (kickstart 40.68) on which further discussions could be based upon to see what is possible and what is not.

So the work began and AROS was born.

Unix::Conf::Bind8::DB::A is a Class representing A records.

METHODS

Methods specified here are overridden. They might or not be differnt from the derived ones. For other methods refer to the METHODS section for Unix::Conf::Bind8::DB::Record.

new ()

Arguments
LABEL => string,
CLASS => string, # IN|HS|CHAOS
TTL => string|number,
AUTH_NS => nameserver,
MAIL_ADDR => rp,
SERIAL => zone_serial_no # number
REFRESH => refresh,
RETRY => retry,
EXPIRE => expire,
MIN_TTL => min_ttl,
PARENT => reference, # to the DB object datastructure

Class constructor. Creates a new Unix::Conf::Bind8::DB::* object and returns it if successful, an Err object otherwise. Do not use this constructor directly. Use the Unix::Conf::Bind8::DB::new_* equivalent instead.

auth_ns ()

Arguments
auth_ns
Object method. Get/set the records auth_ns. If an argument is passed, the invocants auth_ns is set and true returned, on success, an Err object otherwise. If no argument is passed the invocants auth_ns is returned.

mail_addr ()

Arguments
mail_addr
Object method. Get/set the records mail_addr. If an argument is passed, the invocants mail_addr is set and true returned, on success, an Err object otherwise. If no argument is passed the invocants mail_addr is returned.

serial ()

Arguments
serial
Object method. Get/set the records serial. If an argument is passed, the invocants serial is set and true returned, on success, an Err object otherwise. If no argument is passed the invocants serial is returned.

refresh ()

Arguments
refresh
Object method. Get/set the records refresh. If an argument is passed, the invocants refresh is set and true returned, on success, an Err object otherwise. If no argument is passed the invocants refresh is returned.

retry ()

Arguments
retry
Object method. Get/set the records retry. If an argument is passed, the invocants retry is set and true returned, on success, an Err object otherwise. If no argument is passed the invocants retry is returned.

expire ()

Arguments
expire
Object method. Get/set the records expire. If an argument is passed, the invocants expire is set and true returned, on success, an Err object otherwise. If no argument is passed the invocants expire is returned.

min_ttl ()

Arguments
min_ttl
Object method. Get/set the records min_ttl. If an argument is passed, the invocants min_ttl is set and true returned, on success, an Err object otherwise. If no argument is passed the invocants min_ttl is returned.